58
ICRF Projects
COMMENCING OCTOBER 2026
58
PROJECT TITLE
PROJECT DESCRIPTION
RESEARCH 
INSTITUTION
COMPANY 
Electromagnetic control 
of pipeline biofilms with 
ClearWellâ„¢ EM technology 
and implications for 
microbially influenced 
corrosion
Biofilm formation in metal pipes is a significant 
problem in many industries leading to fouling 
and corrosion. Biofilms in pipes are usually 
controlled with biocidal chemicals. The project 
aims to determine if a novel chemical-free 
technology that uses electromagnetic waves is 
effective in the control of detrimental biofilms.
Newcastle University
BP Exploration 
Operating Company 
Limited
Data centre cooling system 
anti-biofilm treatment 
validation (BIOCOOL)
Cooling systems for datacentres are critical, 
but they are also energy- and water-intensive 
components of modern critical infrastructure. 
Biofilm fouling causes health risks and 
increases water use and downtime. New and 
efficient treatments are needed but few specific 
biofilm solutions exist and validation is difficult. 
The project aims to validate performance of an 
anti-biofilm treatment.
University of 
Southampton
RBT Ltd
Targeted Vaginal Delivery of 
Biofilm-Active Therapeutics 
(TARGET-V)
Bacterial vaginosis (BV) represents a significant 
health/economic burden. Current treatments 
fail due antimicrobial resistance mediated by 
biofilm-based microbial communities. The team 
have developed a BV-targeting therapy which 
shows potent anti-biofilm and antimicrobial 
activity. This project will help finalise the 
therapeutic formulation of the drug prior to IND 
filing and clinical trials.
Glasgow Caledonian 
University
CC Biotech Ltd
Increased yields of 
microbially synthesised 
polyesters for biobased 
textile fibres (MICRO-TEX)
Upscaling polyhydroxyalkanoates (PHAs) textile 
fibre synthesis from coffee waste, this project 
engineers robust Cupriavidus necator biofilms 
to transition from 3L to 17L bioreactors. 
Partnering with SO-G Technology Ltd, this 
project aims to overcome planktonic yield 
limits, delivering a commercially viable, biofilm-
driven biomanufacturing platform for a circular 
textile bioeconomy.
University of Leeds
SO-G Technology Ltd
Deployment-Ready 
Real-Time Control of 
Electroactive Biofilms in 
Microbial Electrochemical 
Technologies (DRIVE-MET)
METzero and Newcastle University will  
develop a deployment-ready real-time 
control system for microbial electrochemical 
technologies (METs). The project will optimise 
electroactive biofilms during wastewater 
treatment while supporting safer, remotely 
operated and scalable industrial deployment 
pathways for next-generation resource 
recovery technologies.
Newcastle University
METzero Technologies 
LTD
Rotating Spiral Bioreactor 
for Continuous High-
Yield Production of 
Lignocellulolytic Enzymes
Continuous production of hydrolytic enzymes 
in a novel high performance rotating spiral 
bioreactor is impeded by biofilm-induced 
biofouling. This collaborative project between 
Future Greens Farms Ltd, a Sheffield-based 
business, and the University of Sheffield seeks 
to overcome biofouling to ultimately enhance 
sustainable energy generation from waste.
University of Sheffield
Future Greens Farms Ltd
Progression of a novel 
inorganic antibiofilm urinary 
catheter coating towards 
market
This project will advance a novel  
antimicrobial coating for urinary catheters 
towards market readiness. The project aims 
to generate essential safety, biocompatibility 
and antimicrobial performance data using 
internationally recognised standards and 
realistic laboratory models, supporting 
regulatory approval and future clinical 
translation to help reduce catheter  
associated infections.
Nottingham Trent 
University
MetalloBio Ltd

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